共找到 150 条与 effect 相关的标准，共 10 页
Beurteilung der Einwirkung mechanischer Schwingungen auf den Menschen; Schwingungseinwirkung auf den menschlichen Koerper
Einwirkung mechanischer Schwingungen auf den Menschen; Bewertung
Einwirkung mechanischer Schwingungen auf den Menschen; Beurteilung
Ursache-Wirkungstabelle (IEC 65/566/CD:2014)
本部分 IEC 60519 适用于主要利用电磁力对液态金属作用的装置： - 用于低频电磁（感应）搅拌或输送液态金属的装置； - 利用电磁场影响浇注过程的装置； - 处于电磁搅拌、输送或浇注装置直接影响范围内的部件。 应用示例： - 连铸机、电弧炉、钢包等处的搅拌装置； - 输送液态金属以排空或填充炉子、沟槽或模具； - 输送液态金属并同时计量输送量，例如填充压铸机； - 在连铸过程中利用电磁场影响铸坯表面或浇注流以改善组织结构； - 密封熔炼容器的机械间隙，例如在垂直镀锌生产线中。 本规范包含： - 利用电磁力对液态金属作用的装置的一般要求； - 电磁浇注装置的特殊要求（附录 A）； - 带有衬里的电磁装置的特殊要求（附录 B）。 注：在将 IEC 60519-1 与本规范结合使用时，应将术语“电热装置”或“电热美利体育官网首页网址”酌情替换为“利用电磁力对液态金属作用的装置”。
Sicherheit in Elektrowaermeanlagen - Teil 11: Besondere Anforderungen an Anlagen@ die die Wirkung elektromagnetischer Kraefte auf fluessige Metalle nutzen (IEC 60519-11:2007); Deutsche Fassung EN 60519-11:2007
AIM The aim of this NATO standardization agreement (STANAG) is to respond to the following interoperability requirements.
EFFECTS OF WEARING CBRN PERSONAL PROTECTIVE EQUIPMENT (PPE) ON INDIVIDUAL AND UNIT PERFORMANCE DURING MILITARY OPERATIONS (ED 3)
There is a critical need to identify electronic health records without compromising the privacy and confidentiality of patient data. This white paper discusses important possible parameters associated with electronic health records that could be used for this identification. The core objective of this white paper is to set a stage for the development of IEEE standards associated with the identific...
A Transdisciplinary Framework for Effective and Reliable Continuum of Care
本书为建筑业主、管理者和设计人员提供指导，旨在设计注重长期运行卓越的建筑和系统，涵盖总拥有成本原则、可持续性理念和操作者优先的设计思维。
Designing for Operational Excellence: Intentional Design for Effective Operation and Maintenance
Tsunami Loads and Effects
高镍合金焊接性中微量元素影响的研究，旨在促进对这一主题的更好理解。
Effects of Minor Elements on Weldability of High Nickel Alloys
The rise in the incidence of global pandemics and climate catastrophes demonstrates that the demand for healthcare services is stretched beyond what services can be effectively provided. Even with increased healthcare spending in recent years in the United States and worldwide, access to healthcare resources has declined for many. To improve the quality and accessibility of healthcare solutions to...
A Transdisciplinary Strategic Approach to Implementing an Effective Hospital-At-Home Framework
Full Description NEMA LSD T 83-2020 covers the NEMA response to the International Energy Agency 4E report to correct inaccuracies of NEMA 77-2017 portrayed in the report.
NEMA's White Paper in Response to IEA 4E Final Report
This document describes an objective stroboscopic effect visibility (SVM) meter@ which can be applied for performance testing of lighting equipment under different operational conditions. The stroboscopic effects considered in this document are limited to the objective assessment by a human observer of visible stroboscopic effects of temporal light modulation of lighting equipment in general indoor applications@ with typical indoor light levels (> 100 lx) and with moderate movements of an observer or nearby handled object (< 4 m/s). Details on restriction of the applicability of the stroboscopic effect visibility measure is given in Clause A.1. For assessing unwanted stroboscopic effects in other applications@ such as the misperception of rapidly rotating or moving machinery in an industrial environment for example@ other metrics and methods can be required. The object of this document is to establish a common and objective reference for evaluating the performance of lighting equipment in terms of stroboscopic effect. Temporal changes in the colour of the light (chromatic effects) are not considered in this test. This document describes the methodology for SVM and does not define any limits. The objective method and procedure described in this document are based on CIE TN 006:2016 on temporal light artefacts (TLAs). The method described in this document can be applied to objectively assess the stroboscopic effect of lighting equipment that is powered from any type of source@ AC mains@ DC mains@ battery fed or fed through an external dimmer.
Equipment for general lighting purposes - Objective test method for stroboscopic effects of lighting equipment
This standard is intended to be a guide for the specification, installation, verification, and operation of Coriolis meters used to dynamically measure liquid hydrocarbons. API MPMS Ch. 5.6 also includes information that will assist in troubleshooting and improving the performance of the meters. Use of a Coriolis meter as a stand-alone density meter is not addressed by this standard. This standard describes methods to achieve custody transfer measurement of liquid hydrocarbon quantities (mass or volume) using a Coriolis meter. Coriolis meters can provide outputs for mass flow rate, volumetric flow rate, and density. The choice of the quantity output (mass or volume) depends on commercial, contractual, regulatory, and performance requirements. This document provides guidance for the application, installation, proving, mass calculations, auditing, reporting, and security requirements for Coriolis meters. Some of the guidance provided within also applies to allocation measurement. API MPMS Ch. 20[19] allows for different performance requirements. Guidance for the measurement of density is found in API MPMS Ch. 9[6].
Measurement Method of Liquefied Hydrocarbon Coriolis Flowmeter
The technologies specified in this document are description languages and vocabularies which describe sensorial effects. The adaptation engine is not within the scope of this document (or the ISO/IEC 23005 series). This document specifies syntax and semantics of the tools describing sensory information to enrich audio-visual contents: — Sensory Effect Description Language (SEDL) as an XML schema-based language which enables one to describe a basic structure of sensory information; — Sensory Effect Vocabulary (SEV), an XML representation for describing sensorial effects such as light, wind, fog, vibration, etc. that trigger human senses.
Information technology — Media context and control — Part 3: Sensory information
